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Journal : Jurnal Ilmiah Rekayasa Pertanian dan Biosistem

RANCANG BANGUN SISTEM PEMANTAUAN PARAMETER LINGKUNGAN BERBASIS INTERNET OF THINGS (IoT) DI GUDANG PENYIMPANAN UNTUK PABRIK GULA Mareli Telaumbanua; Eka Yana; Siti Suharyatun; Budianto Lanya; Febryan Kusuma Wisnu; Winda Rahmawati
Jurnal Ilmiah Rekayasa Pertanian dan Biosistem Vol 11 No 1 (2023): Jurnal Ilmiah Rekayasa Pertanian dan Biosistem
Publisher : Fakultas Teknologi Pangan & Agroindustri (Fatepa) Universitas Mataram dan Perhimpunan Teknik Pertanian (PERTETA)

Show Abstract | Download Original | Original Source | Check in Google Scholar | Full PDF (430.071 KB) | DOI: 10.29303/jrpb.v11i1.481

Abstract

Gula merupakan salah satu komoditas kebutuhan pokok. Proses produksi untuk menghasilkan gula di pabrik terdiri dari beberapa tahapan yaitu penggiingan, pemurnian, penguapan, kristalisasi,  pemisahan dan penyelesaian. Setelah itu, gula yang telah dikemas, disimpan dalam gudang sebelum di kirim ke pasar. Kondisi lingkungan gudang penyimpan gula harus sesuai dengan standar. Faktor lingkungan yang tidak sesuai, mampu merusak gula. Beberapa faktor lingkungan penting dalam gudang penyimpanan yaitu suhu, kelembaban, CO2, dan api. Ketersediaan alat ukur portable berbasis internet of things merupakan salah satu bentuk pengawasan keamanan pabrik gula di dalam gudang, sehingga gula yang disimpan tidak menggumpal, meleleh dan menjadi rusak. Tujuan dari penelitian ini adalah untuk membuat alat monitoring gudang pabrik gula menggunakan sistem internet of things (IoT). Alat monitoring ruang yang dibuat terdiri dari komponen utama Wemos D1 R2, sensor MQ-135 untuk deteksi CO2, sensor DHT22 untuk deteksi suhu dan kelembaban dan sensor api. Semua komponen disusun di dalam kotak elektronik berwarna hitam dengan ukuran 15 cm x 9,5 cm x 5 cm. Terdapat 5 alat yang digunakan dalam penelitian ini. Uji kinerja sistem meliputi, tingkat stabilitas, Reliabilitas, respon sistem, akurasi pengiriman data. perhitungan penggunaan daya listrik dan biaya operasional alat diukur dalam penelitian ini. Uji kinerja dilakukan selama 7 hari dengan jarak antar ruang 50-100 meter. Dari hasil uji kinerja, seluruh sistem telah bekerja stabil. Hasil pengujian dengan menggunakan Cronbach Alpha taraf 5% menunjukan alat 1 sampai 5 menghasilkan nilai reliabilitas tinggi. Rerata respon sistem ke 5 alat yaitu 8,28 detik. Rerata akurasi transmisi data dari 5 alat meliputi data suhu adalah 0,00124, kelembaban 0,00434, dan Nilai CO2 adalah 0,00678. Hasil uji kinerja menunjukkan bahwa alat telah bekerja dengan baik sesuai harapan.
Rancang Bangun Sistem Kendali Suhu pada Reaktor Torefaksi Menggunakan Mikrokontroler Telaumbanua, Mareli; Setiawan, Wahyu Hendi; Haryanto, Agus; Wisnu, Febryan Kusuma; Rahmawati, Winda; Lanya, Budianto
Jurnal Ilmiah Rekayasa Pertanian dan Biosistem Vol 12 No 2 (2024): Jurnal Ilmiah Rekayasa Pertanian dan Biosistem
Publisher : Fakultas Teknologi Pangan & Agroindustri (Fatepa) Universitas Mataram dan Perhimpunan Teknik Pertanian (PERTETA)

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.29303/jrpb.v12i2.669

Abstract

The increasing demand for energy causes a decrease in the availability of fossil fuels. Biomass from oil palm waste, namely empty oil palm bunches, can be used as an alternative fuel. The torrefaction process converts biomass into environmentally friendly biopellets with high added value. In this study, the calibration of the K-type thermocouple sensor was carried out using Arduino Uno and testing of the automatic pellet torrefaction tool from empty palm oil bunches. This study aims to develop an automatic control system for the pellet torrefaction tool. The design of the automatic torrefaction tool uses a microcontroller with a gas stove energy source. The dimensions of the support frame are the torrefaction tube (24 cm x 28 cm), the servo motor frame (15 cm x 9.5 cm) and the dynamo support frame (26 cm x 6.5 cm). The tool box is square (50 cm x 50 cm). The torrefaction tube has a volume of 2,826 cm3, a diameter of 15 cm and a height of 16 cm. The results showed that the system successfully reached a temperature of 300°C for 30 minutes from the initial temperature. The temperature accuracy test produced an average value of 92.12%. The stability of temperature control also proved to be quite good in achieving the specified setting point. The water content of torrefaction pellets at a temperature of 150-300°C was around 1-2%. The hydrophobicity of torrefaction pellets at a temperature of 250-300°C after being soaked for 24 hours had a clearer color and remained intact.
Rancang Bangun Kompor Biomassa Otomatis Berbasis Sensor Suhu dan Mikrokontroler Telaumbanua, Mareli; Kurniawan, Ahmad Ridho; Haryanto, Agus; Fil’aini, Raizummi; Wisnu, Febryan Kusuma; Rahmawati, Winda
Jurnal Ilmiah Rekayasa Pertanian dan Biosistem Vol 13 No 1 (2025): Jurnal Ilmiah Rekayasa Pertanian dan Biosistem
Publisher : Fakultas Teknologi Pangan & Agroindustri (Fatepa) Universitas Mataram dan Perhimpunan Teknik Pertanian (PERTETA)

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.29303/jrpb.v13i1.1148

Abstract

Continuous consumption of fossil fuels can cause fuel prices to rise and potentially cause shortages. One alternative renewable energy that can replace fossil fuels is biomass pellets. The use of manual biomass pellet stoves has constraints in controlling the amount of biomass burned, the amount of heat released by the stove, combustion efficiency, safety, and wasteful use of pellets. The purpose of this study was to develop a biomass stove using an automatic control system as a substitute for gas or electric stoves. This stove has the same principle and working method as gas stoves in general, but the pellet fuel is solid. This technology controls the temperature through the integration of temperature sensors, fan blowers, screw feeders, and heat insulators automatically. The results showed that the stove temperature value with the coefficient of determination value from sensor calibration 1 was R2 = 0.9945, sensor calibration 2 obtained the value R2 = 0.9956, the R2 value in sensor calibration 3 was 0.9946, and sensor calibration 4 obtained the value R2 = 0.9927. In the system response test, the device was able to reach a temperature of 300°C in 450 to 780 seconds. Stability testing for setting points 100°C, 200°C, and 300°C were 0.98, 0.82, and 0.53, respectively. The accuracy of the device was 92%. In the execution speed test, it took 2.5 to 4 seconds for the pellets to enter the fuel furnace.